A new physics based dynamic electro thermal large signal model for RF LDMOS FETs
M.P.J.G. Versleijen, V.J. Bloem, J.A. van Steenwijk, O. Yanson
Abstract
M.P.J.G. Versleijen, V.J. Bloem, J.A. van Steenwijk, O. Yanson
Abstract
This paper describes a new large signal model for RF LDMOS devices using a physics based sub-circuit model composed of standards public domain non-linear model building blocks. The model realizes accurate temperature and geometry scaling. The built-in thermal node gives an accurate description of terminal characteristics for static and dynamic temperature conditions. An efficient and straightforward parameter extraction procedure has been defined based on a concise set of measurements. The RF large signal simulation capabilities are demonstrated by comparison with 1-tone and 2-tone load pull measurements for small on-wafer measured (10W) devices. The model is presently used for predictive circuit simulation of LDMOS MMICs and discrete power devices.
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This paper describes a new large signal model for RF LDMOS devices using a physics based sub-circuit model composed of standards public domain non-linear model building blocks. The model realizes accurate temperature and geometry scaling. The built-in thermal node gives an accurate description of terminal characteristics for static and dynamic temperature conditions. An efficient and straightforward parameter extraction procedure has been defined based on a concise set of measurements. The RF large signal simulation capabilities are demonstrated by comparison with 1-tone and 2-tone load pull measurements for small on-wafer measured (10W) devices. The model is presently used for predictive circuit simulation of LDMOS MMICs and discrete power devices.
Key concepts: LDMOS, Radio frequency, Electronic engineering, SIGNAL (programming language), Small-signal model, Computer science, Node (physics), Transistor